China, Germany, and the United States agree on almost nothing — a one‑party state, a restless coalition, and a government at war with its own clean‑energy boom. Yet all three have hit the same wall: not the cost of clean power, but the grid that has to carry it. This report is about that wall — why the usual scoreboard, capacity built, measures the wrong thing, and why the United States may be closer to leading than its politics let on.
What the wires now decide
The old story was the panel and the turbine — what they cost, how fast they would come. That story is finished. The question now is plainer, and harder: can the wire carry the power, can the battery hold it, can the politics bear it. In most of these thirteen countries, not yet.
The pressure is new in kind. Data centres, chip fabs, the whole hungry machinery of AI arrived all at once, and the grid was already old. So the governments that spent a decade learning to build clean power are now learning the harder thing — how to move it, store it, and keep their people with them while they do. Some are managing. Most are not.
This is the grounded reality. A delayed connection is a factory that waits, a bill that climbs, a town that wonders why the wind farm on the ridge feeds someone else’s lights. The countries that close the gap between watts they can make and watts they can move are the ones feeling a positive green transition. The rest will keep generating electricity they cannot yet use. What follows is the state of that effort, country by country.
- The grid is the binding constraint, not the panel. Generation is no longer the hard part. The wires, the transformers, the storage — that is where the transition now lives or dies.
- Curtailment is the signature waste of the age. China’s CO₂ rose ~2% in early 2026 despite a record build‑out, because the grid could not absorb what the panels made. India spilled 2.1 TWh of clean power. France throws away midday sun on a grid already ~95% low‑carbon.
- The build rates have split apart. China added >430 GW of wind and solar in one year. The U.S. set an all‑time capacity record. Japan added ~3 GW of solar and connected just 27% of what it had under study.
- Politics is turbulence, not reversal. Rollbacks and nuclear pivots have not turned the tide. Public support for renewables still clears ~60–80% across most of these countries, and corporate demand for clean power to feed AI is the strongest engine of new capacity there is.
Two scoreboards
Rank the thirteen by installed wind & solar capacity and China wins in a landslide. Rank them by the share of electricity those panels and turbines actually generate, and the board turns over — the capacity giants drop to the middle, and smaller grids that move their power cleanly rise to the top.
China builds more clean power than anyone alive — and still ranks fifth once you measure what reaches the grid. The bottleneck is physical: Japan connects just 27% of the projects it studies, Italy has roughly 140 GW waiting in the queue, India curtailed 2.1 TWh. Switch to build efficiency to see who converts a build into power and who squanders it — the Netherlands climbs eight places between the two boards, while India falls seven and Japan five. Capacity is what you build. Output is what you use.
Wind + solar, share of electricity generation and installed capacity, 2024. Source: Ember; Our World in Data.
Japan
Gotō Floating Offshore Wind Farm
Japan’s first commercial floating offshore wind farm, anchored off the Gotō Islands. With flat land scarce, floating turbines in deep water are the country’s main road to scale — and a template for a 15 GW floating ambition by 2040.
- Hyperscale data centres – The government is pushing a “Data Centre Decentralisation” plan to build facilities in Osaka, Hokkaido, and Kyushu to relieve Tokyo’s power grid. Amazon Web Services launched the Asia Pacific (Osaka) region and is spending ¥2.55 trillion (2023‑2027) on cloud infrastructure; Microsoft, Google and Oracle are expanding. These data centres face cooling challenges in a country with hot summers and high energy‑efficiency requirements.
- Kioxia and Western Digital fabs – Flash memory production in Yokkaichi and Kitakami uses enormous amounts of electricity and ultrapure water; both companies have committed to 100% renewable energy and water recycling.
- TSMC’s Kumamoto fab (JASM) – A joint venture with Sony and Denso, this chip plant is supported by massive government subsidies and must meet Japan’s strict environmental and water‑quality standards.
- Rapidus – The government‑backed 2‑nm chip venture in Chitose, Hokkaido, will be one of the world’s most energy‑intensive semiconductor facilities, with requirements for 100% renewable power and advanced waste‑heat recovery.
- Environmental Impact Assessment (EIA) Law – Large‑scale data centres and semiconductor plants require a thorough EIA if they exceed specified size/power thresholds; local governments may impose additional conditions on water use and CO₂ emissions.
- Act on Rationalising Energy Use (Energy Conservation Act) – Large energy consumers must appoint an energy manager, submit periodic reports, and achieve year‑on‑year energy intensity improvements; data centres are specifically targeted by 2023 METI guidelines requiring a PUE of 1.4 or lower for new facilities.
- Carbon Pricing – Japan introduced a national Carbon Pricing scheme in FY2023 (a surcharge on fossil fuel imports, effectively a carbon tax) alongside a GX‑ETS voluntary emissions trading system that became mandatory from FY2026. Power‑intensive tech facilities will see rising electricity costs as utilities pass through carbon costs.
- Green Transformation (GX) Promotion Act – Promises ¥20 trillion in public‑private investment for hydrogen, ammonia, and renewable grids; requires large companies to disclose emissions and set transition plans.
- J‑Credit System – Government‑certified carbon credits from renewable energy, forestry, and energy‑efficiency projects; commonly used by tech companies for “carbon‑neutral” declarations.
- Current status (2025): Renewables (including hydro) supply roughly a quarter of electricity, but solar growth has stalled sharply: Japan added only about 3 GW of new solar in 2025, even as global solar boomed. Wind remains a marginal contributor at roughly 1% of generation, with total wind capacity at just 6.4 GW.
- Grid bottleneck: As of late 2025, about 317 GW of wind, solar, and storage capacity were under study and development, but only ~87 GW (27%) had been physically connected to the grid — the single biggest constraint on the energy transition.
- Policy pivot: Prime Minister Takaichi’s government has shifted state focus toward restarting aging nuclear reactors and pursuing nuclear fusion, explicitly de‑emphasising megasolar.
- Offshore wind: Driven by extreme land scarcity, Japan passed a landmark bill to develop floating offshore wind in its Exclusive Economic Zone (EEZ), targeting 15 GW of floating capacity by 2040. The first commercial floating farm, Goto (16.8 MW), is now fully operational, and Tokyo is planning a 1 GW floating array.
- Corporate procurement: Companies increasingly use virtual PPAs (e.g., Amazon, Microsoft) to buy renewable electricity; the non‑fossil certificate market (NFCs) underpins RE100 claims, while the Rapidus 2‑nm venture demands 100% renewable power the grid struggles to deliver.
| Metric | Capacity (GW) |
|---|---|
| Renewable projects under study | ~317.0 |
| Projects physically connected | ~87.0 |
| Connection success rate | 27.0% |
| Total wind capacity | 6.4 |
Japanese grid bottleneck (end 2025): severe lag in connecting new projects.
Sanae Takaichi Liberal Democratic Party (自由民主党) · “Nuclear‑first, solar‑sceptic.”
Takaichi, who assumed office in October 2025, called a snap election in February 2026 and won a historic two‑thirds LDP supermajority — the party’s largest lower‑house margin in the postwar era. Her cabinet approval, which peaked between roughly 65% and 83% in late 2025, softened by several points in spring 2026 but remained in the ~60% range, among the strongest of any government in two decades. Her energy policy is a sharp pivot toward nuclear restarts and fusion, away from megasolar — a shift that sits uneasily with a public that remains broadly pro‑renewable.
- The public leans green; the government leans nuclear. A broad majority of Japanese adults back more renewables even at some cost (a 2023 Asahi Shimbun poll put core support near two‑thirds), and 72% think Japan should lead on climate (Pew, 2023). Takaichi’s cabinet is markedly more pro‑nuclear than the public it serves.
- Nuclear restarts split the country. Support for restarting idled reactors runs only around 40–45%. The government is well ahead of that, and megasolar is being quietly set aside.
- The real gap is delivery. Whatever the polling, the nuclear‑first posture and a stalled grid build‑out mean the wires, not the will, are what fall short.
South Korea
Shinan Offshore Wind Complex
A planned offshore mega‑complex off Shinan, billed as among the world’s largest. Its purpose is blunt: clean electricity at the scale Korea’s semiconductor fabs need to hold their export markets.
- Samsung & SK hynix mega‑fab expansions – Pyeongtaek (Samsung) and the Yongin semiconductor cluster are among the world’s largest chip‑fabrication sites, consuming power on the scale of mid‑sized cities; both have pledged 100% renewable energy (RE100) by 2050 but face stiff water‑stress challenges. Without clean electricity, both face crippling carbon tariffs in export markets.
- Hyperscale data centres – Equinix, Digital Realty, and Korean operators (KT, LG U+) are building hyperscale data centres in Incheon, Daejeon, and the Seoul metropolitan area, with authorities requiring new sites to hit a PUE ≤1.5 and install heat‑recovery systems.
- Kakao and Naver data centres – Both internet giants run massive, green‑certified data centres; Naver’s “Gak Sejong” campus achieved LEED Platinum and targets 100% renewable electricity through RECs and direct PPAs.
- Environmental Impact Assessment Act – Large‑scale industrial and IT infrastructure projects must undergo an EIA; the Ministry of Environment can require mitigation for water, air, and ecosystem impacts.
- Carbon Neutrality and Green Growth Act (2022) – Legal foundation for the 2050 carbon‑neutrality goal; establishes the national emissions trading system (K‑ETS) covering generators and large industrial consumers.
- K‑ETS – The cap‑and‑trade system covers ~74% of national greenhouse gas emissions. Data centres and chip plants are indirectly affected through electricity prices, and some may be directly included in future phases.
- Korean Green Taxonomy (K‑Taxonomy) – Defines green economic activities; data centres must meet strict energy‑efficiency thresholds to qualify for green bonds or investment.
- Circular Economy Promotion Law – Requires electronic‑waste take‑back and water‑use reduction plans for large facilities; Samsung and SK hynix operate “zero‑waste‑to‑landfill” programmes.
- New and Renewable Energy Act amendment (2026) – Dismantled the draconian solar “separation distance” rules that had forced installations up to a kilometre from roads and homes, a decisive signal that Seoul is serious about deployment.
- Current status (2025): Operational renewable capacity stood at roughly 37 GW. Total wind capacity remained a mere 2.42 GW, leaving Korea heavily dependent on imported LNG and coal as an “energy island” with no land‑based grid links to its neighbours.
- 2030 target: In mid‑2025, Seoul announced plans to nearly triple operational renewable capacity from 37 GW to 100 GW by the end of the decade — a desperate sprint driven by a projected $133 billion fossil‑fuel import bill for 2026.
- Legislative breakthrough: The early‑2026 amendment to the New and Renewable Energy Act removed the solar separation‑distance barrier that had suffocated deployment.
- Offshore wind: The government targets 14.3 GW of offshore wind by 2030. A May 2026 auction drew bids for 3.6 GW, attracting consortia such as Ocean Winds and Copenhagen Offshore Partners; I Squared Capital and GS E&C partnered on 1.5 GW of solar and storage.
- Corporate PPAs: KEPCO still dominates the market, but direct PPAs (allowed since 2021) let Samsung and others sign long‑term renewable contracts to defend export competitiveness.
| Metric | Capacity (GW) |
|---|---|
| Operational capacity (2025) | ~37.0 |
| Government target (2030) | 100.0 |
| Total wind capacity (2025) | 2.42 |
| Offshore wind target (2030) | 14.3 |
South Korean renewable trajectory: the acceleration required to hit 2030 targets.
Lee Jae‑myung Democratic Party of Korea (더불어민주당) · “Pro‑renewables, Green‑New‑Deal revival.”
President Lee, who assumed office in June 2025 following a snap election after Yoon’s impeachment, campaigned on a centrist platform of stabilisation and a revived “Green New Deal.” His government has reframed the renewable build‑out as a matter of industrial survival for Korea’s export‑dependent chipmakers.
- The public is broadly with the build‑out. Strong majorities back an aggressive renewable expansion (a 2023 Korea Energy Economics Institute survey put it near three‑quarters), and Lee’s government frames clean power as export survival, not green virtue.
- Nuclear is no longer the fight it was. Public opinion has drifted toward nuclear neutrality (around half in support); the energy‑security crunch has softened the DPK’s old anti‑nuclear lean.
- The worry is the bill. Koreans support the transition but watch its cost — the question is who pays to decarbonise the chip fabs that carry the economy.
United Kingdom
Dogger Bank Wind Farm
Far out in the North Sea, Dogger Bank is the largest offshore wind farm on Earth, built in phases toward roughly 3.6 GW. It is the centrepiece of Britain’s bid for clean power by 2030.
- Hyperscale cloud data centres – AWS, Microsoft, Google, and Oracle operate or are building hyperscale facilities in Slough, London, Manchester, and Scotland; the National Grid identifies data centres as a critical factor in long‑term network planning.
- London’s first “Data Centre Heat Network” – Equinix and the Greater London Authority pioneer exporting server waste heat to local housing, a model likely to be mandated under new efficiency laws.
- Semiconductor R&D clusters – The £1 billion National Semiconductor Strategy (2023) fosters photonics and compound‑semiconductor R&D in South Wales and the North East, carrying environmental‑assessment obligations.
- Vodafone and BT/EE network modernisation – Large‑scale 5G rollout and edge‑computing nodes require energy‑efficient equipment and fall under corporate net‑zero pledges.
- Climate Change Act (2008, amended) – Legally binding carbon budgets; the Sixth Carbon Budget (2033‑2037) requires a 78% reduction by 2035. All sectors, including data centres, must align.
- Planning and EIA – Large data centres and chip plants fall under the Town and Country Planning (Environmental Impact Assessment) Regulations 2017, with comprehensive assessment of energy, water, and traffic impacts.
- UK Emissions Trading Scheme (UK ETS) – Covers electricity generation and energy‑intensive industries; data centres face indirect carbon costs via higher electricity prices.
- Energy Act 2023 and Data Centre PUE – Empowers the government to mandate PUE disclosure and heat‑recovery plans; new data centres in London’s “Opportunity Areas” must already assess waste‑heat reuse.
- Great British Energy Act (2025) – Received royal assent on 15 May 2025, formally establishing a publicly owned energy investment company backed by £8.3 billion, partnered with The Crown Estate to unlock offshore wind and secure supply chains.
- Biodiversity Net Gain – Large developments must deliver a 10% biodiversity net gain; data‑centre campuses need habitat compensation.
- Current status (2025): Renewable generation rose to a record 152.5 TWh. Solar now supplies about 7% of Britain’s electricity (cumulative capacity 21.5 GW, producing 17.2 TWh), and grid‑scale storage has doubled to roughly 2% of the mix.
- State‑led acceleration: In 2025 the UK approved a record 9.9 GW of new offshore wind capacity — nearly double the previous peak — plus 1.7 GW of onshore wind across 56 projects, the latter unlocked after Labour lifted the de facto onshore ban.
- Great British Energy: The new publicly owned company, backed by £8.3 billion, acts as a market maker, partnering with The Crown Estate to drive offshore wind and supply‑chain security.
- Targets: 50 GW of offshore wind by 2030 (including floating wind), a fully decarbonised electricity system by 2035, and roughly 70 GW of solar by 2035.
- Challenge: Grid connection queues remain immense, with over 200 GW of renewable projects awaiting integration; the “Connections Action Plan” aims to speed this up.
| Metric | Value |
|---|---|
| Renewable generation | 152.5 TWh |
| Offshore wind capacity approved | 9.9 GW |
| Cumulative solar capacity | 21.5 GW |
| Solar share of electricity mix | 7.0% |
UK grid decarbonisation milestones (2025).
Keir Starmer Labour Party (UK) · “Pro‑renewables, state‑led investment.”
Labour has made clean energy the cornerstone of its economic mandate, establishing the publicly owned Great British Energy and targeting zero‑carbon power by 2030. The Great British Energy Act received royal assent in May 2025, marking a decisive return of the state to the energy market.
- The mandate matches the mood. Roughly four in five Britons say the government should prioritise renewables over fossil fuels, and about three‑quarters back onshore wind (DESNZ Public Attitudes Tracker) — rare, durable consensus.
- Labour built policy to fit. On taking office it lifted the de facto onshore‑wind ban and stood up Great British Energy, closing a gap between opinion and law that had stood for years.
- Concern is high and steady. Around four in five say they are worried about climate change — the political ground beneath the 2030 clean‑power target.
Netherlands
Hollandse Kust Offshore Zone
Off the Dutch coast, the Hollandse Kust zones pioneered subsidy‑free offshore wind, selling power to corporate buyers on long contracts — among the most cost‑competitive wind anywhere, when the grid can take it.
- Amsterdam and Middenmeer data‑centre hubs – The Amsterdam metropolitan area is one of the world’s densest data‑centre clusters (Equinix, Digital Realty, Microsoft, Google, NorthC). Google’s €1.2 billion Wieringermeer campus is fully renewable‑powered with on‑site solar and off‑site wind PPAs.
- ASML’s Veldhoven campus expansion – ASML is expanding its chip‑machine production; the expansion needs a dedicated high‑voltage grid connection and promises a fully electric, fossil‑free footprint by 2030.
- Chip‑cluster “Photondelta” – A major photonic‑chip ecosystem in Eindhoven receives EU IPCEI funding and must meet strict sustainability criteria.
- Wind‑powered edge data centres – Smaller, modular operators (Leafcloud, Bytesnet) use heat reuse to supply district heating, a model encouraged by national policy.
- Environmental Law (Omgevingswet) & EIA – Data centres and large tech plants undergo an integrated environmental permit; new facilities must demonstrate no net harm to biodiversity, water, and energy infrastructure.
- National data‑centre guidelines – With the Amsterdam moratorium lifted in 2023, national spatial‑planning rules restrict new hyperscale data centres to designated regions and require maximum PUE (≤1.2 for new builds) and mandatory waste‑heat utilisation.
- Energy Efficiency Directive (EED) implementation – Data centres >1 MW IT load must conduct energy audits, run heat‑recovery feasibility studies, and target a climate‑neutral energy supply by 2030.
- CO₂ levy for industry – A national carbon tax applies to industrial emissions not fully covered by the EU ETS; large on‑site generators and district‑heating systems can face €50‑80/tonne levies.
- Extended Producer Responsibility (UVP) – Covers e‑waste, batteries, and packaging; Philips and ASML run take‑back and recycling schemes.
- Policy rollbacks (2024‑2025) – The Schoof coalition scrapped the proposed hybrid heat‑pump mandate and removed the solar net‑metering scheme from the legislative agenda, putting the 2030 55% emissions‑cut target in jeopardy.
- Current status (2025): Renewable sources supplied 22.7% of gross final energy consumption, up from 20.2% in 2024. Solar generated roughly 25.8 TWh and total wind 33.5 TWh, with biomass still about 34% of the renewable mix; the Netherlands retains one of the highest solar‑per‑capita capacities globally.
- Record output: Electricity production hit a record 132 billion kWh in 2025, largely on high export demand to neighbouring countries.
- Political retreat: The Schoof government dismantled several climate measures, and experts warn the 2030 target of a 55% greenhouse‑gas reduction is in severe jeopardy.
- Grid saturation: The electricity grid is so congested that new connections for both data centres and renewable farms are frequently delayed — the binding constraint on further growth.
- Corporate PPAs: The Dutch market remains advanced; Google, Microsoft, and Equinix hold long‑term offshore‑wind PPAs (e.g., Hollandse Kust Zuid), even as domestic manufacturing draws only ~8% of its energy from renewables.
| Source | Gross production (TWh) | Share of renewable mix |
|---|---|---|
| Wind energy | 33.5 | ~30% |
| Solar photovoltaic | 25.8 | ~23% |
| Biomass | 6.9 | ~34% |
| Total electricity production | 132.0 | — |
Dutch renewable generation (2025): heavy reliance on wind and biomass alongside rapid solar growth.
Dick Schoof Independent (no party) · “Coalition‑compromised, climate‑lukewarm.”
The coalition that took office in July 2024 — heavily influenced by the far‑right PVV — has prioritised economic competitiveness and agricultural appeasement over climate ambition, systematically dismantling core climate policies it views as burdens on the working class.
- The public is greener than its government. Strong majorities want the Netherlands to lead on EU climate action and support more wind (Eurobarometer puts both well above two‑thirds). The Schoof coalition does not — and the daylight between them is the story here.
- The coalition pulled the other way. Shaped by a climate‑sceptic PVV and a farm‑friendly BBB, it scrapped the net‑metering scheme and the heat‑pump mandate, putting the 2030 55% emissions‑cut target in real jeopardy.
- Most Dutch think it’s too little. A clear majority say the government is doing too little on climate; the accord is widely read as a step back from a public that wanted a step forward.
Mexico
Puerto Peñasco Solar Park
In the Sonoran desert, Puerto Peñasco is one of Latin America’s largest solar parks, built by the state utility CFE toward about 1 GW — the flagship of Mexico’s state‑led, sovereignty‑minded transition.
- Tesla Gigafactory, Santa Catarina, Nuevo León – Water‑supply tensions have delayed construction; SEMARNAT required detailed hydro‑geological studies.
- AWS, Microsoft, Google cloud infrastructure – AWS Local Zone (Querétaro), Microsoft Azure Mexico Central, and a Google Cloud region under development all face electricity and water constraints in drought‑prone states.
- KIO Networks QRO 1 & 2 – One of Latin America’s largest data‑centre campuses, expanding further in Querétaro.
- Environmental Impact Authorisation (MIA) – Mandatory under LGEEPA for large industrial projects; conditions on water, land, and biodiversity attached.
- Water concessions (CONAGUA) – In water‑stressed zones, projects must secure permits and demonstrate recycling/re‑use.
- Carbon Tax (IEPS) – Excise tax on fossil fuels; raises electricity costs for fossil‑based power, with no direct carbon price on consumption.
- Clean Energy Certificates (CELs) – Reformulated in 2021; large consumers still face a clean‑energy obligation, encouraging renewable procurement.
- Climate Change Law (LGCC) – National emission targets; projects voluntarily align with the NDC and can use forest carbon credits.
- NOM standards – Regulate wastewater discharge and air emissions; tech firms often build on‑site treatment and zero‑liquid‑discharge systems.
- Current status (2025): Mexico generated only 26% of its electricity from low‑carbon sources. The distributed‑solar market, however, exploded from the ground up, reaching 5.16 GW across more than 600,000 installations by year‑end — driven almost entirely by net metering, with Jalisco leading.
- State re‑engagement: In late 2025 the state utility CFE issued calls for 6 GW of new generation (including 3.3 GW of private renewables and 1.5 GW of battery storage); more than 10.7 GW was awarded in six months to firms such as Thermion Energy and Sunstone Power.
- 2030 gap: To reach a 45% clean‑energy share by 2030, the nation needs an additional 46 GW of new solar and wind.
- Plan Mexico: Sheinbaum’s “Plan Mexico 2025‑2030” seeks $100 billion in annual FDI and positions the country as an advanced‑manufacturing hub, dependent on unlocking renewable wires for corporate buyers.
- Untapped potential: Recent geospatial studies reveal an offshore‑wind potential of 487.3 GW in the Gulf of Mexico alone; the natural resource and foreign capital exist, but transmission must be permitted.
| Segment | Capacity (MW) | Share of net‑metered total |
|---|---|---|
| Systems up to 50 kW | 3,251.46 | 63.59% |
| Systems 250–500 kW | 989.02 | 19.34% |
| Total distributed generation | 5,164.98 | — |
Mexican distributed solar (end 2025): the grassroots sub‑megawatt boom.
Claudia Sheinbaum National Regeneration Movement (Movimiento Regeneración Nacional) · “Statist, fossil‑legacy, slowly‑greening.”
Sheinbaum, a former climate scientist, is personally far more committed to renewables than her predecessor (AMLO), but governs through a Morena machinery that spent 2018‑2024 blocking private wind and solar and fortifying the state oil company Pemex. She has even weighed resuming oil shipments to Cuba while simultaneously pushing CFE toward the sun — the contradiction at the heart of her “Green State.”
- The public wants the switch. Large majorities favour prioritising renewables and back big solar and wind parks (Consulta Mitofsky and others have put core support in the high‑70s to low‑80s). Sheinbaum’s distributed‑generation push runs with that grain.
- The state still loves its oil. Morena’s base leans toward fossil‑fuel “energy sovereignty,” and the government keeps spending on refining — the contradiction at the centre of Mexican energy policy.
- Trust is the soft spot. Mexicans support the transition in the abstract but are far less sure the government is delivering it — the gap is belief, not desire.
Canada
Site C Clean Energy Project
A 1.1 GW hydroelectric dam on the Peace River in British Columbia — controversial, long‑delayed, and now reinforcing one of the cleanest grids in the world as data‑centre demand climbs.
- Hyperscale data centres – AWS (Calgary, Montreal), Microsoft (Toronto, Quebec City), Google (Montreal, Toronto), and Equinix are expanding rapidly; grid operators flag data centres as a major new load testing the clean‑grid advantage.
- Meta’s renewable contracts – 560 MW of new wind PPAs in Alberta to match local operations — the digital cloud running on the prairie wind.
- Shopify’s cloud footprint – Backed by RECs and Alberta wind investments.
- Federal carbon pricing – Fuel charge plus the Output‑Based Pricing System (OBPS) for large emitters; the consumer carbon price was retreated on in 2025, while the industrial price remains, targeting roughly $130‑170/tonne.
- Impact Assessment Act (IAA) – Rarely triggered for data centres unless on federal land; most reviews are provincial.
- Provincial environmental assessments – Ontario’s Comprehensive EA, Quebec’s Environment Quality Act, and B.C.’s processes may impose water, noise, and EMF conditions.
- Clean grid & RECs – Abundant hydro and growing wind; tech companies sign VPPAs and buy unbundled RECs for “100% renewable” claims.
- Net‑Zero Emissions Accountability Act – Legally binding 5‑year milestones that push corporate alignment.
- Indigenous participation – Required in almost every major wind and solar procurement.
- Current status (end 2025): Canada amassed roughly 25 GW of installed wind, solar, and storage — about 19 GW of wind, 5 GW of solar, and 1 GW of storage — a 56% expansion since the turn of the decade, atop a grid already ~82% non‑emitting (hydro and nuclear).
- National Electricity Strategy: The Carney administration aims to double grid capacity by 2050, anticipating 30–51 GW of new wind, 17–26 GW of new solar, and 12–16 GW of storage by 2035.
- Clean‑electricity rules: Draft Clean Electricity Regulations target a net‑zero grid by 2035, phasing out unabated gas, supported by refundable investment tax credits of up to 30%.
- Provincial variation: Alberta leads corporate PPAs (despite a temporary, partially lifted renewable moratorium); Hydro‑Québec issued a 4 GW wind RFP; Ontario and B.C. are running new procurements.
- Corporate demand: Tech companies are the main driver of new wind/solar PPAs, especially in deregulated Alberta and hydro‑rich Quebec, with Indigenous participation now standard.
| Technology | Installed (GW) | Additions by 2035 (GW) |
|---|---|---|
| Wind | 19.0 | 30.0 – 51.0 |
| Solar | 5.0 | 17.0 – 26.0 |
| Energy storage | 1.0 | 12.0 – 16.0 |
| Total core renewables | 25.0 | 59.0 – 93.0 |
Canadian renewable capacity (end 2025) and projected additions.
Mark Carney Liberal Party of Canada (Parti libéral du Canada) · “Market‑oriented, climate‑hawkish.”
Carney, a former central banker and UN climate‑finance envoy, took office in March 2025 and won a majority in April 2025 on a platform of “net‑zero prosperity.” To navigate a divided electorate he executed a strategic retreat on consumer carbon pricing — sparking internal dissent and resignations — while keeping the industrial price and pursuing a National Electricity Strategy, a Trade Diversification Corridor, and critical‑minerals corridors.
- Most Canadians want more, not less. Around seven in ten say government should do more on climate (Abacus Data, early 2025) — the backdrop for Carney’s “net‑zero prosperity” pitch.
- Carbon pricing is where the country splits. It divides almost perfectly along party lines, which is why Carney retreated on the consumer price while keeping the industrial one — a calculated bend to keep the rest of the agenda standing.
- The build is bipartisan even when the rhetoric isn’t. A National Electricity Strategy and critical‑minerals corridors advance on their economic merits, regardless of the carbon‑tax fight.
China
Three Gorges Dam
On the Yangtze, Three Gorges is the largest power station ever built at 22.5 GW — the emblem of China’s hydro backbone, even as solar and wind now dominate the country’s record‑setting new build.
- “East Data West Calculation” initiative – A state‑directed campaign that forcibly relocates data centres to the renewable‑rich frontiers of the west to align computing load with clean generation.
- AI data‑centre build‑out – AI data‑centre power capacity stood at 32 GW in 2025 and is projected to reach 60 GW by 2030, driving an additional 175 TWh of demand — with some estimates of 400‑600 TWh by the decade’s end.
- Hyperscale and semiconductor expansion – Domestic cloud giants (Alibaba, Tencent, Huawei) and a rapidly growing chip‑fabrication sector add immense, inflexible electrical loads that the grid is straining to serve.
- National ETS – China’s emissions trading system, the world’s largest by covered emissions, is being expanded beyond power to heavy industry, raising the indirect carbon cost of fossil‑based electricity.
- Renewable market‑pricing reform (2025) – New rules shifted renewable plants to market‑based selling in late 2025; they have not yet solved the curtailment crisis.
- “New type power system” programme – A national push to build a grid capable of absorbing massive variable renewables by 2027, with heavy investment in ultra‑high‑voltage transmission and storage.
- Energy‑intensity and dual‑control targets – Binding provincial energy‑intensity and total‑consumption limits shape where and how data centres and fabs can be sited.
- Green Electricity Certificates (GECs) – The principal instrument for corporate renewable claims, though additionality concerns persist.
- Current status (end 2025): China built a renewable system of unfathomable scale, surpassing 1,800 GW of total installed capacity and adding more than 430 GW of new wind and solar in a single year. Solar alone grew by 314 GW in 2025; renewable generation reached 4 trillion kWh, eclipsing the EU’s entire power consumption.
- The curtailment crisis: Generation is outstripping the grid. Curtailment of wasted wind and solar became so severe that in Q1 2026 China’s CO₂ emissions actually grew by 2%, as grid operators resisted inflexible renewable power on reliability grounds.
- Coal fallback: In the first four months of 2026, thermal (coal/gas) additions more than doubled to 28 GW while new solar additions plummeted 52% to 50.9 GW — a stark illustration that panels without arteries bleed energy away.
- Grid race: China is racing toward a “new type power system” able to handle the influx by 2027; until transmission and storage catch up, green energy will continue to be curtailed and coal will keep burning.
- Corporate procurement: Green Electricity Certificates and direct purchase deals are expanding, but additionality and grid access remain constraints for multinational buyers.
| Source | Capacity added (GW) | Year‑over‑year |
|---|---|---|
| Solar power | 50.9 | ‑52.0% |
| Thermal (coal/gas) | 28.0 | +116.0% |
| Wind power | 21.3 | +6.5% |
| Nuclear power | 3.6 | N/A |
Chinese power additions (Jan–Apr 2026): the grid bottleneck and thermal resurgence.
Xi Jinping Communist Party of China (中国共产党) · “State‑directed, build‑first, grid‑constrained.”
China treats the renewable build‑out as a campaign of industrial survival and strategic dominance rather than a matter of electoral opinion. The leadership sets staggering top‑down capacity targets — and meets them — but the absence of a flexible market and adequate transmission means physics, not politics, is now the binding constraint, forcing a politically awkward fallback to coal even as clean generation hits records.
- Single‑party system: there is no electoral divergence to measure; renewable expansion is set by central plan and provincial quota rather than public approval.
- Public sentiment: surveys consistently show very high Chinese public concern about air quality and climate, broadly supportive of the clean‑energy push.
- The real gap is operational: the divergence is between record generation and a grid that cannot absorb it — curtailment, not opposition, is the obstacle.
- Coal tension: the Q1 2026 emissions rise sits uneasily with the state’s “ecological civilisation” rhetoric, exposing the cost of building generation faster than the wires.
Germany
He Dreiht Offshore Wind Farm
EnBW’s roughly 960 MW North Sea project, built without subsidy — a fitting symbol of an Energiewende now driven by market economics and corporate PPAs rather than feed‑in tariffs.
- Frankfurt data‑centre cluster – Europe’s densest data hub; hyperscalers building in and around Frankfurt require immense, uninterrupted power, increasingly balanced with battery storage and corporate PPAs.
- Intel and TSMC fabs – New German semiconductor plants (Magdeburg, Dresden) carry rigorous permitting and water‑use obligations under EU and national law.
- Battery and storage projects – Storage capacity rose rapidly to about 25 GWh, with developers such as Fotowatio Renewable Ventures (FRV) securing 2.3 GW of grid access for hybrid solar‑and‑battery projects (2026‑2029) targeting Brandenburg and Lower Saxony.
- EEG (Renewable Energy Sources Act) – The core instrument driving renewable expansion, now operating increasingly through market mechanisms rather than fixed feed‑in tariffs.
- EU ETS and national carbon pricing – Large on‑site combustion and high electricity prices pass EU ETS costs through to data centres; a national carbon price covers buildings and transport fuels.
- Energy Efficiency Act and data‑centre rules – Germany requires minimum power usage effectiveness and mandatory waste‑heat reuse for new data centres.
- Building Energy Act – The previous mandatory heat‑pump pathway has been softened under the Merz government’s “technology‑open” approach.
- Extended Producer Responsibility – Covers e‑waste, batteries, and packaging for electronics manufacturers.
- Current status (2025): Renewables held steady at 55.9% of net public electricity generation, with total installed capacity climbing to nearly 210 GW. Solar led, reaching 117 GW after strong additions in Bavaria and a remarkable surge in plug‑in balcony solar (430,000 new installations).
- Wind faltered: Onshore wind reached 68.1 GW but generated 3.2% less electricity (132 TWh) than the prior year due to historically poor wind conditions; Germany needs ~9.4 GW of new onshore wind annually to hit its 2030 target of 115 GW, a pace it is currently missing.
- Storage build‑out: Battery storage rose rapidly to about 25 GWh, with statutory needs of 100‑170 GWh by 2030 driving rapid expansion.
- Market‑driven momentum: With the state hesitating, corporate PPAs have become the lifeblood of new projects — FRV alone secured 2.3 GW of grid access for solar‑plus‑storage.
- Offshore wind: Capacity stood at 9.5 GW against a 2030 target of 30 GW, requiring severe acceleration.
| Technology | Installed | 2030 target | Requirement |
|---|---|---|---|
| Solar PV | 117.0 GW | 215.0 GW | 19.6 GW/yr needed |
| Onshore wind | 68.1 GW | 115.0 GW | 9.4 GW/yr needed |
| Offshore wind | 9.5 GW | 30.0 GW | Severe acceleration |
| Battery storage | 25.0 GWh | 100–170 GWh | Rapid expansion |
German grid infrastructure (end 2025): the gap between build rates and statutory targets.
Friedrich Merz Christian Democratic Union and Christian Social Union (Christlich Demokratische Union/Christlich-Soziale Union) · “Pro‑market, technology‑open, cautious.”
Merz assumed office in May 2025 leading a cautious, market‑oriented government that grew deeply unpopular, with satisfaction ratings near 15% by early 2026. He has pledged a “technology‑open” energy approach, distancing the CDU from the rigid green mandates of previous administrations even as the renewable engine keeps turning on market mechanics.
- The public is far greener than the Chancellor. Around four in five Germans favour accelerating wind and solar (ARD‑DeutschlandTrend, 2025), and only about a fifth want nuclear back. Merz governs to the cautious side of all of it.
- “Technology‑open” is a brake dressed as a choice. The government prefers 80% renewables by 2030 and resists a firm 2035 100%‑renewable target that much of the public would take — softening, not reversing, the EEG engine.
- The market is doing the work the state won’t. With Berlin hesitant, corporate PPAs have become the lifeblood of new build — FRV alone locked in 2.3 GW of grid access for solar‑plus‑storage.
India
Khavda Renewable Energy Park
Rising from the salt flats of the Rann of Kutch, Khavda is a solar‑and‑wind hybrid aimed at roughly 30 GW — on course to be the largest renewable installation in the world.
- Hyperscale data centres – Domestic and global operators are racing to build out capacity, projected to hit roughly 2 GW by 2026; sites demand massive, perfectly stable electrical loads.
- Semiconductor fabs in Gujarat – New fabrication plants require continuous, high‑quality power and water, straining a grid still dependent on coal baseload.
- Apple supply chain – Apple’s India operations run increasingly on renewable electricity through large‑scale solar parks and rooftop installations, pushing contract manufacturers toward clean power.
- Environmental Impact Assessment – Large data centres and manufacturing/fab projects above thresholds require EIA clearance with water and emissions conditions.
- Production‑Linked Incentive (PLI) – Schemes for solar PV manufacturing and electronics nudge supply chains toward domestic, lower‑carbon inputs.
- National Green Hydrogen Mission – A flagship programme to scale green hydrogen and electrolyser manufacturing.
- Green Energy Corridors – Dedicated transmission infrastructure to integrate renewable‑rich states into the national grid.
- Energy Conservation (Amendment) Act – Enables a domestic carbon market and energy‑efficiency obligations for large consumers.
- Current status (early 2026): India became the third‑largest country globally for installed renewable capacity, reaching 274.68 GW. Total solar eclipsed 157 GW and wind reached nearly 56.8 GW. Non‑fossil sources provided 29.2% of electricity in FY2025‑26, peaking at a remarkable 51.5% in July 2025.
- Record installs: In FY2025‑26 India installed a record 44 GW of new solar and 6 GW of wind.
- The curtailment crisis: Because coal plants cannot drop below a minimum technical load (~55%), the grid cannot absorb all the midday solar. In FY2026 an estimated 2.1 TWh of renewable electricity was curtailed — roughly ₹629 crore of foregone power.
- Violent ramping: In March 2026, solar and wind hit 41% of the midday mix, forcing coal generation down nearly 49 GW in six hours and back up 51 GW in three — exposing a grid that must learn to bend with the sun.
- Immediate need: India requires an immediate 10 GWh of battery storage to prevent the collapse of its green ambitions; the 2030 goal remains 500 GW of non‑fossil capacity.
| Metric | Value |
|---|---|
| Solar capacity added | 44.0 GW |
| Wind capacity added | 6.0 GW |
| Curtailed renewable energy | 2.1 TWh |
| Estimated financial loss | ₹629 crore |
| Immediate battery storage need | 10.0 GWh |
India renewable generation & curtailment (FY2026): variable renewables vs. thermal baseload limits.
Narendra Modi Bharatiya Janata Party (भारतीय जनता पार्टी) · “Sunshine diplomacy, coal‑backboned.”
Modi, sworn in for a third consecutive term in June 2024, projects India as a global climate leader (International Solar Alliance, net‑zero by 2070) while simultaneously expanding coal and domestic gas to guarantee baseload — a tension now sharpened by the curtailment crisis as record solar collides with inflexible thermal plants.
- Climate concern crosses party lines here. Roughly seven in ten Indians say the government should do more on climate (Pew), and a strong majority would prioritise solar and wind over coal (Yale/CCL) — there is little partisan split to speak of.
- Yet the coal keeps running. The gap in India is not opinion versus party; it is ambition versus a grid that still leans on inflexible coal and now spills clean power it cannot absorb.
- Pollution makes it personal. The overwhelming majority of urban Indians call air and water a serious problem — and tech projects draw local protest wherever those stakes are visible.
Vietnam
Dầu Tiếng Solar Power Complex
One of Southeast Asia’s largest solar complexes at about 420 MW — a product of the feed‑in‑tariff boom that made Vietnam a solar standout, well ahead of its grid.
- Samsung’s manufacturing mega‑complex – Smartphone and appliance factories in Thai Nguyen and Bac Ninh (combined investment >$20 billion) rely on dedicated solar farms and renewable PPAs to meet Samsung’s 100% renewable commitment, despite grid constraints.
- Apple suppliers & Foxconn expansion – Luxshare, Foxconn, and Goertek scale up AirPods, iPad, and MacBook assembly; Apple’s Clean Energy Programme pushes onsite solar and storage.
- Rapid data‑centre growth – Viettel, CMC Telecom, and VNPT build domestic hyperscale facilities as AWS and Google edge nodes expand, under a Data Centre Master Plan with sustainability criteria.
- Intel’s Assembly & Test plant (Ho Chi Minh City) – Intel’s largest back‑end site sources renewable certificates and targets net‑positive water by 2030.
- Law on Environmental Protection (LEP) 2020 – Introduces an integrated Environmental License framework issued by MONRE or provincial People’s Committees.
- Environmental Impact Assessment – Mandatory for semiconductor plants, large data centres, and major manufacturing, including climate‑resilience and biodiversity measures.
- Water Resources Law (amended 2023) – Requires water‑use permits for facilities extracting >100 m³/day and promotes recycling and reuse.
- Electricity Law (2024) – Enables comprehensive market reform and the deployment of direct PPAs, letting large tech buyers bypass the state utility EVN’s bottlenecks.
- Carbon market – Vietnam is piloting an emissions trading system ahead of a full scheme later this decade, expected to cover large manufacturers.
- Extended Producer Responsibility (EPR) – Electronics makers must recycle or pay into a recycling fund for e‑waste and packaging.
- Current status (end 2025): Cumulative solar capacity surpassed 19.2 GW, the foundation of a fast‑growing but fragile system that suffered severe curtailment during earlier solar booms.
- PDP8R upgrade: The updated Power Development Plan VIII dramatically scaled up targets — onshore/nearshore wind to 26‑38 GW by 2030, offshore wind nearly tripled to 17 GW, and battery storage amplified from 300 MW to as much as 16.3 GW.
- Market reform: The 2024 Electricity Law unlocked direct PPAs to attract the capital needed to bypass EVN’s bottlenecks.
- Offshore potential: Studies indicate Vietnam can harness up to 1,068 GW of offshore wind, with 57.8 GW in highly feasible nearshore zones; developers such as REE are expanding aggressively.
- Demand pull: To support >10% growth, the government mandated a 15% increase in power generation for 2026, explicitly to feed semiconductors and AI.
| Technology | Previous target | Updated 2030 target |
|---|---|---|
| Onshore / nearshore wind | 21,880 MW | 26,066 – 38,029 MW |
| Offshore wind | 6,000 MW | 17,032 MW |
| Battery storage | 300 MW | 10,000 – 16,300 MW |
Vietnamese renewable targets (PDP8R): the dramatic upward revision of ambition.
Tô Lâm Communist Party of Vietnam (Đảng Cộng sản Việt Nam) · “Industrialising, climate‑responsive pragmatist.”
The CPV frames renewable energy as essential to energy security and competitiveness while insisting on state‑led planning. Under Tô Lâm and Prime Minister Lê Minh Hưng, who took office in April 2026, the party radically elevated its clean‑energy ambitions through PDP8R, betting that capturing the manufacturing base of the digital world requires first capturing the wind.
- Concern is near‑universal. Surveys (UNDP Vietnam / Yale) have put Vietnamese support for urgent climate action around nine in ten, and state media pushes the same line — there is no rhetorical gap in a one‑party system.
- Coal is the friction point. Strong majorities want more wind and solar and less coal, yet near‑term reliance on coal and LNG has triggered local protest and delayed several plants.
- The doubt is delivery, not direction. As elsewhere, the public is surer of what it wants than that the government is getting there fast enough.
France
Saint‑Nazaire Offshore Wind Farm
France’s first offshore wind farm, about 480 MW off the Atlantic coast at Saint‑Nazaire — the opening move of an offshore programme meant to sit alongside, not replace, the nuclear fleet.
- Hyperscale cloud hubs around Paris – AWS, Microsoft, and Google continue to build massive data hubs in the periphery of Paris, requiring stable, baseload electricity that France supplies mainly through its nuclear fleet.
- Battery gigafactories in Dunkirk – New cell plants draw immense, continuous power and depend on the low‑carbon grid for their footprint.
- Photonics and semiconductor clusters – EU‑backed chip and photonics projects carry environmental‑assessment and water obligations.
- EIA and environmental permitting – Large data centres and chip plants require assessment of energy, water, and traffic impacts.
- Loi Énergie‑Climat (2019) – Sets the framework for renewable and decarbonisation targets, now revised by the 2026‑2035 energy plan.
- PPE3 (2026‑2035 energy plan) – Notably lowered long‑term renewable targets — the 2030 solar PV goal cut to 48 GW and onshore wind to 35‑40 GW — while elevating nuclear.
- Loi d’accélération des énergies renouvelables (2023) – Streamlines offshore‑wind permitting, creates “acceleration zones,” and mandates solar canopies on large car parks.
- Guarantees of origin & CPPAs – The state promotes “contrats de vente directe” (PPAs) and “garanties d’origine” for green claims.
- Current status (2025): Low‑carbon electricity hit an all‑time high of 521.1 TWh — 95.2% of mainland generation — with cumulative solar reaching 33 GW by Q1 2026 (after adding 1.5 GW in three months) and onshore wind near 23.9 GW.
- Targets lowered: The PPE3 plan actually cut long‑term renewable ambition — solar to 48 GW and onshore wind to 35‑40 GW by 2030 — turning focus inward to optimising 57 existing reactors and building 6 new EPRs by 2038.
- Curtailment surge: As midday solar surpluses grow, capacity mobilised under curtailment mechanisms increased tenfold in 2025 to almost 5.6 GW; negative wholesale prices force generators to throw power away.
- Storage shortfall: Operational grid‑scale battery storage stood at just 1.5 GW at end‑2025 but must reach 5.3‑6 GW by 2030 simply to absorb the midday surplus.
- Corporate PPAs: Still developing relative to Germany; Engie, EDF, and TotalEnergies offer CPPAs, with Microsoft, Amazon, and Google holding French contracts.
| Metric | Value |
|---|---|
| Cumulative solar PV | 30.4 GW |
| Cumulative onshore wind | 23.9 GW |
| Capacity subject to curtailment | 5.6 GW |
| Grid‑scale BESS capacity | 1.5 GW |
French renewable capacity and curtailment (2025): the clash of flexible sun and rigid atom.
Emmanuel Macron Renaissance (La République En Marche) · “Pro‑nuclear, renewables‑balanced.”
Macron frames France’s low‑carbon strategy as “nuclear + renewables,” emphasising energy sovereignty. Following the political turbulence of September 2025, Prime Minister Sébastien Lecornu’s government reaffirmed nuclear primacy — the PPE3 plan quietly lowered renewable targets even as solar forces its way through the cracks of the establishment.
- The public backs the goal; the plan trims it. A clear majority of the French want the government to do more on climate (ADEME/BVA), and solar enjoys overwhelming support — yet PPE3 quietly *lowered* the 2030 renewable targets in favour of the reactor fleet.
- Solar is more loved than onshore wind. Support for expanding solar runs far ahead of support for onshore turbines, and the nuclear‑and‑offshore tilt under‑serves the cheaper, faster option the public likes best.
- Willingness to pay is the ceiling. Only about half will accept higher costs for the transition — the real limit on French ambition is the bill, not the belief.
Italy
Larderello Geothermal Complex
In the Tuscan hills, Larderello is where geothermal power began in 1913 and still runs today at over 800 MW — proof that Italy’s oldest clean‑energy idea remains one of its most dependable.
- Milan data‑centre cluster – Italy’s densest data hub, with AWS, Microsoft, and Aruba expanding around Milan and the Veneto; the load is rising fast against a grid already straining to connect new supply.
- STMicroelectronics fabs – EU Chips Act‑backed plants in Catania (silicon carbide) and Agrate Brianza are heavily energy‑ and water‑intensive and carry strict environmental obligations.
- Agrivoltaics build‑out – A €1.7 billion state scheme is co‑locating solar with farmland (≈1 GW), pairing food and power on the same hectares — an Italian answer to land competition.
- Environmental assessment (VIA) – Large data centres, fabs, and renewable plants require national or regional environmental impact assessment covering energy, water, and landscape.
- PNIEC (National Energy & Climate Plan) – Sets Italy’s 2030 targets, including ~52 GW of solar, and frames the permitting and grid agenda.
- FER X renewable auctions – The 2025 auctions awarded 7.6 GW of solar (plus a 1.1 GW non‑Chinese supply‑chain tranche), the main instrument now driving utility‑scale build.
- Decreto Aree Idonee (“suitable areas”) – Governs where renewables may be sited; contested by regions and a key brake on deployment.
- MACSE storage mechanism – A new capacity‑style auction for electricity storage; its first round procured 10 GWh, signalling Italy’s bet that storage, not generation, is the constraint.
- Current status (2025): Renewables supplied 41% of electricity consumption (Terna), down slightly from 42% in 2024. Solar led at 14.5% of consumption, generating a record 44 TWh (+25%), with cumulative solar capacity reaching 43.5 GW after a 6.4 GW addition. Wind stood at 13.6 GW.
- Hydro backbone: Italy’s mountainous north gives it roughly 21.6 GW of hydropower, including pumped storage that helps balance the growing solar peak.
- Storage surge: Operational storage reached 7.3 GW / 17.9 GWh (up 1.7 GW in 2025), and the first MACSE auction booked 10 GWh more — the clearest sign Italy now treats storage as the priority.
- The bottleneck is the queue: roughly 140 GW of solar sits in the grid‑connection backlog. As with its peers, Italy’s limit is no longer panels but permits and wires.
- Frontier projects: Larderello in Tuscany — the world’s first geothermal plant (1913) — still runs at 800+ MW, while Beleolico in Taranto became the Mediterranean’s first offshore wind farm.
| Metric | Value |
|---|---|
| Renewables share of consumption | 41% |
| Solar capacity | 43.5 GW |
| Wind capacity | 13.6 GW |
| Operational storage | 7.3 GW / 17.9 GWh |
| Solar in grid‑connection queue | ~140 GW |
Italian renewable system (end 2025): a solar‑and‑storage push against a clogged grid.
Giorgia Meloni Brothers of Italy (Fratelli d'Italia) · “Pro‑renewables for security, pro‑gas‑hub, nuclear‑curious.”
Meloni’s right‑wing government has been more pragmatic on clean energy than its rhetoric promised. The Russian gas shock did the persuading: after 2022, solar and storage became a matter of energy sovereignty, not green virtue, and the auctions kept running. At the same time Rome courts a Mediterranean gas‑hub role and has cracked open the door to nuclear. The brake here is bureaucratic, not ideological.
- The public votes with its rooftops. Italians have wired up more than two million solar systems — and it is the electricity bill, not the climate, that drives them.
- Security did what greens could not. The gas shock turned renewables into a sovereignty argument the right could own, and Meloni’s government kept the FER auctions and agrivoltaics tenders moving.
- The fight is the queue, not the polls. With ~140 GW stuck waiting for a grid connection, the “suitable‑areas” decree and permitting reform — not public opinion — are where Italy’s transition is won or lost.
United States
Alta Wind Energy Center
In California’s Tehachapi Pass, Alta is among the largest wind facilities in the United States at roughly 1.5 GW — part of the wind‑and‑solar surge that set a national capacity record in 2025, federal headwinds notwithstanding.
- Northern Virginia’s “Data Center Alley” – Alongside AI supercomputing clusters in Memphis and Texas, these sites devour gigawatts of power, driving electricity demand at a scale not seen since national electrification.
- CHIPS Act fabs in Arizona and Ohio – New fabrication plants drain local aquifers, pitting the digital economy against agriculture.
- Corporate renewable procurement – Amazon, Microsoft, Meta, and Google sign tens of gigawatts of PPAs annually, the largest such market on earth.
- Executive rollbacks (2025‑2026) – The “Unleashing American Energy” order paused federal funding for green projects under the IRA, and subsequent budgets sought to eliminate many climate initiatives; tax credits for solar and wind face accelerated expiration.
- No federal carbon price – Carbon costs remain absent at the federal level, leaving state renewable portfolio standards and local ordinances to fill the gap.
- State leadership – California (SB 100: 100% zero‑carbon electricity by 2045), New York (CLCPA), and states like Maine are restructuring climate plans to bypass federal bottlenecks.
- NEPA and interconnection – Federal environmental review and clogged interconnection queues remain major hurdles for new transmission and generation.
- EPA standards – Power‑plant and vehicle rules continue to shape the cost of fossil generation, subject to ongoing legal and political contestation.
- Current status (2025): Wind and solar generated a record 17% of US electricity (760,000 GWh). The grid added a record 53 GW of new capacity, including a historic 27.2 GW of utility‑scale solar and a record 15 GW of battery storage — even as the nation set records for natural gas and crude‑oil output (13.6 million b/d).
- Policy whiplash: Despite federal rollbacks under the Trump administration, the physics of capital carried record renewable installs; it is an all‑of‑the‑above reality, burning fossil fuels at record highs while installing silicon at record pace.
- Corporate and state momentum: With federal support retreating, states and corporations have seized the mantle — US firms sign tens of gigawatts of PPAs annually, and solar remains the cheapest new generation.
- Offshore wind: The 30 GW‑by‑2030 ambition faces headwinds amid permitting pauses and financing strain, though some East Coast projects remain operational.
- Challenge: Interconnection queues exceed 2 TW of waiting projects and new transmission remains hard to permit; the transition is now a corporate imperative more than a federal project.
| Metric | Value |
|---|---|
| Total new capacity added | 53.0 GW |
| Utility‑scale solar added | 27.2 GW |
| Battery storage added | 15.0 GW |
| Wind & solar generation | 760,000 GWh (17%) |
| Crude oil production | 13.6 million b/d |
US energy additions and generation (2025): the dual expansion of renewables and fossil fuels.
Donald Trump Republican Party (United States) · “Fossil‑forward, deregulatory, all‑of‑the‑above.”
Trump, inaugurated as the 47th President in January 2025, moved at once to pull down his predecessor’s climate architecture — pausing IRA money, going after the wind and solar credits. The market did not cooperate. 2025 set records for clean installations and for oil and gas in the same breath. The federal government stepped back; corporations and states kept building. That is the American contradiction in one line.
- The public still wants it. 77% of Americans favor expanding solar, 68% wind, and 69% even back offshore wind — the very thing the administration is trying to kill (Pew, 2025–2026).
- The split is partisan, and it is wide. Asked whether to prioritize renewables over fossil fuels, 57% of all adults say yes — but only 28% of Republicans, against ~86% of Democrats. That priority gap has stretched to roughly 49 points, almost entirely because Republican support fell, not because Democrats moved (Pew, Mar 2026).
- Washington and the market point opposite ways. The federal posture is fossil‑forward; corporate demand for clean power is at record highs and solar is still the cheapest capacity to add. The buyers, not the policy, are setting the pace.
- The states are running their own race. California, New York, and Maine keep procuring aggressively, openly working around federal policy — a structural split between who governs and who builds.
The American Opening
Strip away the flags and these systems share nothing. A one‑party state. A coalition that argues with itself. A federal government openly working against the thing it is building. And yet China, Germany, and the United States walked into the same wall. When an autocracy, a fractured democracy, and an adversarial administration all stall at the identical place, the problem stops being political. It is physics and steel — wires, transformers, the queue.
Which is why the scoreboard has to change. Capacity added rewards whoever pours the most concrete and says nothing about whether the power ever reaches a home. The honest measure is usable clean power — how much of what gets built actually moves, instead of being curtailed, queued, or thrown away at noon. Keep score that way and the rankings scramble. The race is no longer who builds most. It is who fixes the grid first.
On that scoreboard the United States is stranger than it looks. It is the only country here whose federal government is actively working against clean power — and it still set a capacity record in 2025. States and corporate buyers built straight over Washington’s objections, because the demand for clean electricity to feed data centres and industry is structural and the obstruction is merely political. Structural things persist. Political things change.
The grid is the constraint. It is also the opportunity — and America is better placed to seize it than its politics currently admit.
That gap is the opening. Public support for expanding solar and wind has held near three‑quarters through an administration built to erode it. If the federal posture turns after 2028, the country would not be starting over — it would be adding a willing government to a build‑out already in motion, with the real bottleneck finally named out loud. The twelve partners in this report are the preview: their present is America’s near future. Germany’s market‑run build, China’s transmission spine, India’s scramble for storage — each is a lesson the United States can take cheaply, by watching, before it has to learn it the hard way.
- The metric. Whether “usable clean power” — connection rates, curtailment, queue times — begins to replace “capacity added” in how progress gets reported.
- The 2028 inflection. Whether a shift in federal posture converts a record private‑sector build‑out into a national strategy, with real money behind transmission and storage.
- The partners as preview. What the U.S. can borrow now — Germany’s PPA market, China’s long‑distance transmission, India’s storage push — to shorten its own path.